Researchers developed a prototype imaging system that can simultaneously track the cornea's mechanical response at nine locations, allowing for more accurate assessment of corneal biomechanics. This technology has the potential to improve early detection and monitoring of disorders like keratoconus.
Researchers identify AXL as a previously unrecognized regulator of bone formation, promoting osteoblast maturation and increasing bone mass. Inhibiting Axl using BGB324 increases bone growth in mice without significant toxicity.
The University of North Florida has been awarded a grant to provide immersive research education focused on pediatric rehabilitation and assistive technology. Students will participate in a 12-week program with coursework, guest speakers, mentored projects, and hands-on exposure to data science and clinical populations.
Researchers modeled key physical characteristics of biological tools to understand their diversity, finding that shape affects trade-offs between efficiency and resistance. The analysis revealed optimal cone shapes for puncture tools, including those resembling scorpion's stingers and shark teeth.
The SEB Conference 2026 will take place in Florence, Italy, from July 7-9, featuring over 600 talks on advances in experimental research. The event's theme is 'Reslience,' covering topics like biomechanics, wildlife conservation, and bio-inspired robotics.
Researchers from Drexel University developed BioCoach, a program using AI and computer vision to analyze video and provide form coaching in real time. The system analyzes visual appearance and motion patterns, as well as 3D skeletal movements and body shape, to deliver detailed biomechanics-based feedback.
Researchers aim to determine the connection between circulating lipoprotein (a) and calcific aortic valve disease, with a focus on biomechanics and early detection. They will also explore how mechanical forces influence disease progression and treatment.
A new humanoid robotic bioreactor delivers human-like multiaxial mechanical stimulation to engineered tendon constructs, enhancing cell alignment and mechanotransduction-related responses. This study shows that biomimetic multiaxial loading can reshape cellular mechanosensing and promote early tendon-related biological responses.
Researchers identified previously unseen changes in motor coordination that result from incomplete spinal cord injuries. Motor units, nerve-to-muscle connections, struggle to spread signals smoothly across muscles at low exertion after the injury.
A proof-of-concept comparison between Azure Kinect and OpenCap shows that the smartphone-based system can accurately estimate lower-limb biomechanics, with strong agreements in joint angles and contact forces. However, further studies are needed to confirm its applicability for clinical diagnosis.
A new study compares the bite efficiency of fossil reptiles using advanced engineering simulations, revealing distinct feeding biomechanics in Late Cretaceous marine reptiles. The research team recreated the biting behavior of coexisting marine predators and identified differences in biting performance across species.
A recent study published in Gait & Posture found that analyzing a person's walk and getting up from a chair can identify elevated depression and anxiety symptoms. The researchers used machine-learning models trained on data from participants' movements combined with information about their mental state, achieving high accuracy rates.
Researchers are developing snail-inspired soft robots to deliver targeted therapy directly to tumor sites in bowel cancer patients. The robots aim to increase drug bioavailability and reduce off-target toxicity., Transforming colorectal cancer treatment by enabling precise drug release at tumour sites.
Researchers from the University of Kansas used motion capture technology to analyze shooting mechanics, finding that greater flexibility in the preparatory phase is crucial for accuracy. The study's findings will be used to attempt a new world record for most consecutive made three-point shots.
A new study shows that high-intensity interval training increases the number of mitochondria and expands the active membrane, enhancing energy production and potentially improving endurance. The findings, published in the University of Southern Denmark, also suggest that muscle mitochondria are more adaptable than previously thought.
Utah engineers have created a wearable, portable hip exoskeleton that reduces the energy needed to walk by nearly 20% in individuals with hemiparesis after a stroke. The device helps compensate for reduced ankle propulsion and provides real-time motor assistance, improving mobility and quality of life.
A new machine learning model interprets leg motion as expended energy, providing a more accurate measure of calories burned. The device has been shown to have double the accuracy of commercial smartwatches and activity trackers.
A KIT researchers developed an AI model to analyze gait biomechanics data from patients with hip osteoarthritis before and after total hip replacement surgery. The study identified three groups with different gait change patterns, which can predict individual responses to the operation.
The Marker-GMformer model, a lightweight deep learning approach, accurately predicts lower limb biomechanics with high correlation coefficients (>0.97) and low RMSE values (1.95° for joint angles). It offers real-time inference suitable for applications requiring fast feedback, such as robotic control and monitoring.
Researchers identified two fundamental coordination patterns in underwater dolphin kick, accounting for over 99% of movement across performance levels. Faster swimmers exhibited greater shoulder extension and increased lower trunk movement, enabling reduced water resistance and improved propulsion.
Researchers used advanced microscopy and computational modeling to discover why herpesvirus infection changes nuclear structures and biomechanical forces. The study found that DNA viruses infect cells and take over the host cell nucleus, leading to dramatic structural modifications and a softening of the nucleus.
A team of researchers has identified the HIF1 protein as a central molecular driver of tendon diseases such as Achilles tendonitis and jumper's knee. Elevated levels of this protein lead to pathogenic remodelling of tendons, making them more brittle and impairing their mechanical function.
A new international study identifies several protein families potentially involved in bone remodeling and highlights their role in shaping bone structures through mechanoadaptation. The study sheds light on the evolutionary mechanisms behind bone mechanoadaptation and its relation to locomotion patterns such as bipedalism.
A study published in eLife reveals how kangaroos increase their hopping speeds without incurring an associated energetic cost. By adjusting their posture, kangaroos reduce tendon stress and energy storage, allowing them to maintain the same amount of net work at the ankle, regardless of speed.
Researchers used engineering simulations to test the anatomy of a 250-million-year-old mammal and found that it likely had an eardrum large enough to hear airborne sound effectively. The study's findings challenge previous hypotheses on how early mammals heard, providing new insights into their evolution.
Scientists at Max Planck Institute develop a novel lab-on-a-chip system using intelligent hydrogel structures to simulate spatially and temporally controlled mechanical perturbations of biological polymer networks. The system applies precise pressure forces to cellular microenvironments, enabling research into biomechanical interaction...
Researchers developed a bioinspired dual-mechanism iontronic pressure sensor (FIPS) that mimics human skin structure, achieving high sensitivity and full-range linearity for real-time musculoskeletal load monitoring. The FIPS platform opens new avenues for wearable biomechanics, sports medicine, and rehabilitation robotics.
Tufts University faculty Chunmei Li, Renata Micha, and Dariush Mozaffarian are among the world's most highly cited researchers. Their research has been published in leading journals and cited over 160,000 times.
Researchers developed a novel exoskeleton CASIA-EXO with subject-adaptive control, enabling efficient motor relearning and enhancing neural plasticity. The system uses intention-based trajectory planning and performance-based intervention adaptation to individualize training trajectories and intervention levels.
Researchers developed a generative AI model, BIGE, to generate optimal motions for athletes to avoid injuries and aid in rehabilitation. The model can produce realistic videos of motions that athletes can mimic during training or execute while injured.
A recent study from Harvard John A. Paulson School of Engineering and Applied Sciences uses wearable sensor technology and machine learning to estimate ground-reaction forces in runners. This data can provide insights into performance and injury, enabling the development of devices that deliver real-time feedback to users.
Scientists have found that a tiny worm uses static electricity to jump high into the air and attach to flying insects, with a charge of hundreds of volts initiating an attractive force. The researchers used experiments to investigate how electrostatic forces affect the success rate of nematodes connecting with insects.
Researchers have discovered a natural cutting system in female sawflies that can make precise cuts while avoiding vital structures. The mechanism uses tooth geometry and composition to select materials, potentially revolutionizing surgical instruments.
Researchers developed a fully automated finite element analysis pipeline to transform spine diagnostics and personalized treatment planning. The new approach enables rapid, patient-specific simulations that support preoperative planning, spinal implant optimization, and early detection of degenerative spine conditions.
A new study by Anneke van Heteren found that early bears like the Auvergne bear were likely typical omnivores, not insect-eaters as previously thought. The research used 3D jaw analyses and geometric morphometrics to compare jaw biomechanics with different diets.
Scientists have successfully kept a tiny sliver of the mammalian cochlea alive and functional outside the body for the first time. The innovation allowed them to capture the live biomechanics of the cochlea's remarkable auditory powers, including exceptional sensitivity and sharp frequency tuning.
Graz researchers investigate homocysteine's impact on the aorta, finding elevated levels lead to stiffer and less elastic vessels. This discovery contributes to understanding of cardiovascular diseases like atherosclerosis.
Researchers Theresa Rienmüller and Robert Winkler from Graz University of Technology have been awarded prestigious funding prizes for their innovative projects. Rienmüller is investigating electrical stimulation as a therapy for traumatic brain injury, while Winkler is developing micro-robots that could treat diseases in the human body...
A researcher at Kennesaw State University is creating digital twins of the human stomach using advanced medical imaging, biomechanics testing, and computational modeling. This could lead to a better understanding of gastrointestinal disorders and more accurate diagnoses.
Researchers found that humpback whales use their large pectoral flippers to achieve complex turns, allowing them to corral prey with efficiency. This unique strategy is energetically impractical for other whale species, making humpbacks the only ones capable of bubble-net feeding.
Koo's team received the award for analyzing gait-related knee joint motion in healthy individuals and patients after ACL reconstruction with ALL augmentation. The study found excessive anterior translation and internal rotation, suggesting incomplete restoration of normal joint kinematics post-surgery.
The project aims to develop novel, interpretable biomarkers using advanced artificial intelligence to overcome limitations in current diagnostic tools. The team will integrate multi-modal data and biomechanics for better diagnosis and tracking of chronic obstructive pulmonary disease (COPD).
Researchers at Monterey Bay Aquarium Research Institute used the EyeRIS camera system to track the movements of deep-sea pearl octopuses. The study revealed simplified control mechanisms in their arms, which could inspire the design of octopus-inspired robots.
Silvia Blemker, a renowned biomedical engineer, has been elected to lead the American Society of Biomechanics. She aims to bolster industry ties, expand funding for students and early-career researchers, and promote interdisciplinary collaboration.
A new analysis of 18 species of carnivorous dinosaurs reveals that not all giant predators had strong bites, but instead specialized in different feeding styles. This study demonstrates the diversity of feeding strategies among giant carnivores, challenging the assumption that one 'best' skull design existed for being a predatory giant.
The new book Spinal Surgery Biomechanics: Principles for Residents offers a comprehensive exploration of core biomechanical concepts essential for mastering spinal surgical procedures. It bridges the gap between theory and practice, providing a biomechanical framework that supports surgical planning and patient safety.
A clinical trial found that high tibial osteotomy (HTO) reduces knee joint damage and improves pain and function in patients with knee osteoarthritis and bowed legs. HTO alters the way people walk, lessening further joint damage, reducing pain, and improving quality of life.
Seeds can achieve speeds up to 29 miles per hour and reach shooting distances of up to 12 meters, propelled by high-pressure explosions. The fruit stem straightens up during ripening, creating an optimal angle for maximum distance.
A new study reveals that fish hovering in place consumes roughly twice the energy of resting, challenging the scientific community's long-held assumption. By analyzing fin movements and body shape, researchers found species with greater separation between their centers of mass and buoyancy use more energy when hovering.
The Danforth Plant Science Center welcomes Dr. Justin Conover and Dr. Erin Sparks as new faculty members, expanding their expertise in polyploidy and plant biomechanics. These additions strengthen partnerships with the University of Missouri, elevating research on crop genetics and resilience.
The SEB Conference 2025 will feature over 500 talks on latest advances in experimental research across animal, plant and cell biology. The event highlights groundbreaking research in biomechanics, wildlife conservation, human disease and bio-inspired robotics.
Researchers have discovered that blow flies can detect forces with high sensitivity, not only magnitude but also rate of change, which is crucial for balance and locomotion. The study's findings have promising implications for the design of next-generation walking robots.
UC3M has developed a neuroscience knowledge map showcasing the University's research potential in this critical area. The map highlights the multidisciplinary nature of UC3M's R&D efforts, featuring groups across diverse disciplines such as engineering, economics, humanities, and law.
A University of Queensland-led research team used advanced digital modelling techniques to reconstruct the Phoenix Trackway, a 70-meter-long set of footprints made by a two-legged predator. The study reveals the dinosaur walked at a steady 5.3 km/h, stood 1.13 meters tall, and weighed up to 292 kilograms.
Researchers have discovered that flamingos employ a range of active feeding strategies, including stomping, head jerking and beak chattering, to concentrate brine shrimp and small animals into their mouths. These behaviors create whirlpools and eddies that funnel prey towards the birds' mouths.
A new study by Teoxane confirms the safety, biocompatibility, and efficacy of RHA4 in dynamic facial support. The study shows RHA4's ability to promote rapid collagen formation and support extracellular matrix remodeling, contributing to long-term structural and functional benefits.
Researchers from TU Graz and Vellore Institute of Technology have developed a 3D-printed skin imitation with living cells to test nanoparticles from cosmetics. The skin imitation mimics human skin's three-layer tissue structure and biomechanics, made possible by hydrogel formulations printed together with living cells.
Researchers propose a general formula modeling bone adaptation as a function of key loading parameters. The formula provides insights into the relationship between mechanical signals and adaptive bone responses, offering guidance for optimizing exercise regimens and designing medical devices to promote bone health.
Researchers designed a hopping robot based on studies of leaping squirrels, which can stick a landing on narrow perches. The robot uses strategies similar to those employed by squirrels when landing, including directing force through the shoulder joint and grasping the branch with its feet.
Researchers created a computational simulator to model the biochemical processes of intervertebral discs, allowing for better understanding of back pain causes. The simulator enables simulating 33 proteins and their interactions, providing valuable insights into disc degeneration.